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Activating The Henry Ford Archive of Innovation

Posts Tagged engineering

HENRY 150 SEAL_chromeNew England Institute of Technology, with three campuses in Rhode Island, has formed its own Quadricycle Club. The purpose of this club is to have Mechanical Engineering Technology (MCT) students, as well as interested students from any of the college’s more than 40 academic programs, work collaboratively towards a goal of reverse engineering, manufacturing, and building Henry Ford’s first automobile, the Quadricycle. Club Advisor Christopher Vasconselas, a faculty member in the MCT program, is thrilled to see the excitement in his students as they bring their very own Quadricycle to life. The club meets anywhere from 2-5 hours per week, and the members hope to have the Quadricycle ready to take its maiden voyage in two years—a labor of love for certain.

The club was formed one year ago and now has 20 members who are familiar with various computer software programs such as SolidWorks mechanical design software as well as Microsoft Word and Excel. They work with equipment such as a manual engine lathe, manual vertical mill, horizontal and vertical band saw, pedestal grinder, and belt sander. There are many activities and skills that these students must perform in the building of the Quadricycle, some of which include interpreting engineering drawings, solid modeling using SolidWorks software, raw material and parts quoting, machining metal, basic carpentry work, electrical wiring, welding, and assembly. In fact, the students are making the majority of the parts from scratch with only 10-15 percent being produced by outside vendors. One student is even doing welding at home. Everyone is so enthusiastic!

NEIT Blog Photo 2

The students are honing their electrical, carpentry, machining and assembly skills. So far, they have manufactured the main bearings, front spindle arm, drive pulley, ignition spring holder, drive pulley washers, drive sprocket, connecting rods, rear engine support, timing gear bolt, drive sprocket pins, rudder connector, water jackets, front engine mount, rear axle bearings, front engine bolt and support, and jackshaft.

  • Two students built a Quadricycle dolly so the car can be easily moved from place to place during construction.
  • The New England Tech Quadricycle is the only one of its kind in Rhode Island. After taking it for a few spins around the college parking lot, Chris hopes to showcase the Quadricycle at the college for faculty, staff, students and visitors to enjoy. To follow the club’s progress, email Chris at cvasconselas@neit.edu or call 401-739-5000, ext. 3617. You can view his photo library here.

    Under the leadership of President Richard I. Gouse, New England Institute of Technology is a private, non-profit technical college with an enrollment of more than 3,000 students. The college is accredited by the New England Association of Schools and Colleges, Inc.

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    By Linda Dionne. Since 2009, Linda A. Dionne has served as Media Relations Specialist at New England Institute of Technology in East Greenwich, RI. In addition to writing articles for various trade publications and blogs, Linda is responsible for preparing and distributing press releases as well as coordinating all media requests and interviews. Linda is also the editor for the college’s quarterly newspaper, Tech News, and a monthly on-line newsletter, Tech Talk. Linda is a graduate of Bryant University (RI) with a Bachelor of Science degree in management and marketing.

    Henry Ford, teachers and teaching, manufacturing, making, technology, cars, engineering, by Linda A. Dionne, quadricycle, education

    The Goodwood Revival is world renowned for celebrating the living history of motor sports. One of the great stories of this year's Revival is the 45th anniversary of the Ford Mk IV win at Le Mans. Dan Gurney and A.J. Foyt were the first American drive team and all-American car to win the 24 hours of Le Mans race. This incredible win was supported by the best team in the business, led by Carroll Shelby.

    Many obstacles were overcome to win the race, including the failed windshields of the Ford cars, which were cracking just days before the race was about to start. The millions of dollars that Ford had spent to win Le Mans and beat Ferrari were at risk, because the cars could not be allowed to run with damaged windshields. Ford immediately had a new set of windshields made in the United States and flew them all in first-class seats on a commercial airliner to France. Ford then flew in Terje Johansen, a Norwegian glass engineer living in Brussels, to install the windshields to ensure they would not crack again. Terje worked from 2:30 p.m. to 3:30 a.m. installing the windshields just hours before the start of the race.

    The rest was, of course, history.

    Today Terje Johansen, pictured on the left and Dan Gurney, pictured on the right met for the first time - 45 years later after the famous win at Le Mans. Terje Johansen brought a set of photographs taken while he was installing the windshields at Le Mans and gave them to Matt Anderson, our Curator of Transportation for the Racing in America archives as part of our Collections to further document the process of innovation in racing.

    Christian Overland
    Executive Vice President

    race car drivers, Henry Ford Museum, Driven to Win, Mark IV, car shows, cars, events, engineering, Goodwood Revival, by Christian W. Øverland, racing, race cars

    A planned two-week checkup inspection of the iconic house of the future - Buckminster Fuller's Dymaxion House - turned into a two-month long “surgery” to repair extensive fatigue cracking of the thin aluminum beams that form the deck of the house. The cracks were visible from the underside, which is only accessible by sliding on your back on the museum's teak floor in about 18 inches of workspace.

    Axionometric view of the Dymaxion House

    Thorough inspection indicated that the damage was happening only in areas where the public walks. There were no cracks in the living room, which has never been accessible to visitors.

    The cracks were developing due to the flexing of metal at the sharp edge of L-shaped brackets supporting the beams. Remember, there was no precedent for the use of aluminum in this architectural application, so we guess that Bucky was never aware he had allowed this fundamental design flaw. The house was a prototype in process - so it's understandable.

    Tim Brewer and Clara Deck open the floor to expose the beams for repair.

    Our first look at the problem set off a flurry of activity to plan for repair. Fortunately, we had most of the expertise and labor required right on staff. Tim Brewer was there every step of the way when we put the house together the first time in Oct 2001; he knows every bolt and cable of the complicated dwelling machine.

    Jill Maki carefully removes the floorboards.

    Our dedicated volunteer Richard Jeryan, a retired engineer from Ford Motor Company, knew the best local firm to jump in and manufacture repair patches for us. Metro Technologies, located in Troy, Mich., made and helped install the necessary patches using high-tech adhesive and large rivets.

    Most of the conservation department had a role as well. Some of our part-time staff - notably Fran McCans and Jill Maki - put in many extra hours to see this fascinating project through in good time.

    A technician from Metro Tech applying adhesive

    Just getting at the problem required the removal of hundreds of fasteners – the stainless steel bolts, wood screws and aluminum rivets that hold the whole house together. Removing all those rivets while working in such tight spaces was challenging.

    Clara Deck, Richard Jeryan and Tim Brewer move a pod to get to the repair work.

    We lifted and moved the closet “pods” to open up more of the floor.  We shored the structure with lumber and removed the offending brackets. We pounded-out the floor-boards to access the bolts that retained the brackets.

    Tim Brewer drills a crack with magnification. The workspaces were very tight.

    Then we drill-out the ends of the cracks to arrest their progress in preparation for the addition of thicker aluminum patches custom-fit to the tapered U-shaped profile of the beams.

    This photo was taken during initial installation of the house in the museum. You can see some of the floor beams in place.

    MetroTech workers installing a patch for more stability.

    Two Metro Tech guys came in to apply the patches. Then we closed the first half and repeated the whole process for the second half of the deck.

    Meanwhile, we worked with staff carpenters to make a new “over-floor” of plywood to install under the carpet.  This serves to spread the load of visitors’ foot-falls, reducing that flexing stress that causes fatigue in metals.

    Exterior view of the Dymaxion House.

    After reassembly and the carpet is relaid, the change will go unnoticed by most visitors.

    Those of us familiar with the house can feel a distinct difference: it feels much more solid. Bucky meant for the house to hang from the mast.  He described the deck as “pneumatic” in some publications…but he had no idea that his prototype would become one of Henry Ford Museum’s most loved exhibits one day, with hundreds of thousands of visitors walking through it every year.

    We think our work has preserved this house for another couple generations at least.  Only time will tell.

    Clara Deck is former Senior Conservator at The Henry Ford.

    Additional Readings:

    #Behind The Scenes @ The Henry Ford, engineering, design, Henry Ford Museum, collections care, conservation, by Clara Deck, Dymaxion House, Buckminster Fuller